2results about How to "High overlap" patented technology

The invention discloses a system and a method for accelerating a gene alignment execution process. The system comprises a processing thread management module, one or more dynamic caches and a dynamic cache management module. Wherein the processing thread management module is configured to set a gene comparison process as a multi-stage assembly line, each execution step of the gene comparison process corresponds to one assembly line stage on the multi-stage assembly line, and a plurality of processing threads are distributed for each assembly line stage; and dividing gene sequence data to be compared into a plurality of data blocks and providing the data blocks to the multi-stage assembly line for processing. The dynamic caches are used for data transmission between two pipeline stages, and each dynamic cache comprises at least two cache blocks. And the dynamic cache management module is configured to manage distribution and recovery of the dynamic caches between the two pipeline stages and control switching of working states between different cache blocks in each dynamic cache. According to the method, the overlapping degree of process calculation and input and output is higher, the memory efficiency is higher, and the performance of overall execution is improved.

This application relates to the field of UAV photogrammetry technology, and particularly to a method, apparatus, equipment, and medium for independently acquiring control points via flight path planning. Multiple control points are deployed within the survey area, and the three-dimensional coordinates of each control point are measured using real-time dynamic positioning equipment. A control point acquisition flight path, independent of the main flight path, is planned. The UAV is operated to simultaneously acquire images of each control point and the entire survey area according to both the control point acquisition flight path and the main flight path, obtaining control point images and raw aerial photographs. Based on the three-dimensional coordinates of each control point measured by the real-time dynamic positioning equipment, the control point images and raw aerial photographs are fused to construct a three-dimensional model of the survey area. This decouples the control point data acquisition process from the main flight path survey area flight process. By designing independent, dedicated flight acquisition tasks for each control point, parallel operation of control point acquisition and main flight path flight is achieved, improving field efficiency and measurement accuracy.